Brownian motion

Physics

Viscosity

Current (fluid)

Reynolds number

Heat transfer

Mechanics

Magnetic field

Sherwood number

Nusselt number

Thermophoresis

Schmidt number

Turbulence

Nanofluid

Flow (mathematics)

Mass transfer

Quantum mechanics

Lewis number

Magnetohydrodynamics

Prandtl number

Classical mechanics

Thermodynamics

Results in Physics

The current research aims to examine the combined effect of magnetic and electric field on micropolar nanofluid between two parallel plates in a rotating system. The nanofluid flow between two parallel plates is taken under the influence of Hall current. The flow of micropolar nanofluid has been assumed in steady state. The rudimentary governing equations have been changed to a set of differential nonlinear and coupled equations using suitable similarity variables. An optimal approach has been used to acquire the solution of the modelled problems. The convergence of the method has been shown numerically. The impact of the Skin friction on velocity profile, Nusslet number on temperature profile and Sherwood number on concentration profile have been studied. The influences of the Hall currents, rotation, Brownian motion and thermophoresis analysis of micropolar nanofluid have been mainly focused in this work. Moreover, for comprehension the physical presentation of the embedded parameters that is, coupling parameter N1 , viscosity parameter Re, spin gradient viscosity parameter N2, rotating parameter Kr, Micropolar fluid constant N3, magnetic parameter M, Prandtl number Pr, Thermophoretic parameter Nt, Brownian motion parameter Nb, and Schmidt number Sc have been plotted and deliberated graphically.

The electrical MHD and Hall current impact on micropolar nanofluid flow between rotating parallel plates